WO2009107279A1

WO2009107279A1 - Continuous body with rfids, rfid sticking device, and rfid sticking method

Info

Publication number: WO2009107279A1
Application number: PCT/JP2008/070098
Authority: WO
Inventors: 正則大塚; 英治牧田
Original assignee: 株式会社サトー知識財産研究所
Priority date: 2008-02-27
Filing date: 2008-11-05
Publication date: 2009-09-03

Abstract

Disclosed is a continuous body with RFIDs on which RFID inlets and indication labels visibly printed according to information written in the RFID inlets and to be stuck on the RFID inlets are temporarily attached continuously to a paper base. The continuous body (1) with RFIDs has an elongated paper base (2), RFID inlets, and indication labels (4). The RFID inlets (3) and indication labels (4) are temporarily attached to the elongated paper base (2) between printed identification marks (5) which are equally spaced. RFID reading/writing means (17) writes desired information in the RFID inlets, and printing means (23) prints information on the indication labels. Removing means (18) sequentially removes the RFID inlets and indication labels, and sucking/sticking means (35) suction-holds them and sticking the RFID inlets and the indication labels to objects conveyed on object conveying means, with the indication labels on the respective RFID inlets.

Description

Continuous body with RFID, RFID sticking apparatus and RFID sticking method

The present invention particularly relates to a continuous body with RFID in which an RFID inlet and a display label are continuously attached to a mount. The present invention also relates to an RFID sticking apparatus and an RFID sticking method for sticking an RFID inlet and a display label to an article using such a continuous body with RFID.

2. Description of the Related Art Conventionally, an RFID label affixing device is known in which desired information is printed on a (RFID) label containing an RFID inlet by a printing unit and then affixed to an object to be adhered. However, when printing on a label with a built-in RFID inlet, especially the IC chip portion is protruding, which may cause printing failure. An RFID inlet pasting machine that writes and pastes information on the RFID inlet to avoid printing defects on the protruding IC chip portion, and a label that prints the contents of the RFID inlet visibly and overlays the RFID inlet. An RFID sticking device in which sticking machines are arranged in parallel in the flow direction of a belt conveyor is known (for example, see Patent Document 1). However, in Patent Document 1, it is necessary to install the RFID inlet pasting machine for pasting the RFID inlet on the sticking object and the label sticking machine in parallel in the flow direction of the belt conveyor, so two places for installing the pasting machines are required. In some cases, there is a problem that the installation location needs to be expanded. Also, there is a printing apparatus that prevents damage to the IC chip and printing failure in the printing operation by performing printing while avoiding the position near the IC chip of the IC paper (see, for example, Patent Document 2). However, the printing in Patent Document 2 is performed by printing a barcode on which the IC chip position information is recorded on the other side of the IC paper in advance, reading the barcode, and based on the position information read by the reading device. In addition to setting the chip position as a print prohibited area, the judgment means determines whether the print prohibited area and print data overlap. For example, the position information of the IC chip needs to be printed in advance in order to avoid the IC chip, such as a change, and the print layout is changed depending on the case. *

JP 2007-153346 A JP 2005-47231 A

The present invention has been made paying attention to the above problems, and includes an RFID inlet and a display label that is visibly printed based on information written in the RFID inlet and displayed on the RFID inlet. It is an object of the present invention to provide a continuous body with RFID, which is sequentially and continuously attached to a mount. *

Moreover, this invention makes it a subject to provide the RFID sticking apparatus which uses the said continuous body with RFID, and affixes a RFID inlet and a display label on a to-be-attached object in piles. *

The present invention also uses the first and second RFID inlets and the continuous body with RFID in which the display label is continuously attached to the mount, and the first and second RFIDs are separated from the continuous body by the peeling means. The inlet and the display label are sequentially peeled off, and the first and second RFID inlets are attached to the object to be pasted so as not to overlap, and the first and second RFID inlets are covered. It is an object of the present invention to provide an FRID sticking method in which labels are stuck and stuck.

The continuous body with RFID according to the first aspect of the present invention is a long board having identification marks printed on the back surface at equal intervals, and an RFID temporarily attached to the surface of the board between the identification marks via an adhesive layer An inlet, and a display label temporarily attached to the surface of the mount via an adhesive layer following the RFID inlet. The continuous body with RFID according to the second aspect of the present invention is a long mount on which identification marks are printed at equal intervals on the back surface, and a first substrate temporarily attached to the surface of the mount between the identification marks via an adhesive layer. 1 RFID inlet, a second RFID inlet temporarily attached to the surface of the mount via an adhesive layer following the first RFID inlet, and an adhesive to the surface of the mount following the second RFID inlet And a display label temporarily attached through the agent layer. Further, the first or second RFID inlet can be provided with an antenna for a high frequency band on one side and an antenna for a low frequency band on the other side. According to a third aspect of the present invention, there is provided an RFID sticking device in which identification marks are printed at equal intervals on the back surface of a long board, and the RFID inlet and display are provided on the surface of the board between the identification marks via an adhesive layer. RFID-attached continuum formed by temporarily attaching labels, supply means for mounting the RFID-attached continuum, and RFID reading / writing for reading / writing the RFID inlet of the continuum fed from the supply means Write means; printing means for printing on the display label; conveyance means for conveying the continuum from the supply means to the printing means side; and a mount of the continuum provided downstream of the printing means A peeling means for peeling off the RFID inlet and the display label; A label sticking device that sucks and holds a label and a label for display and is attached to an object to be stuck, and a sticking / sticking means for carrying the article in the vicinity of the suction / sticking means The RFID inlet having the desired information written by the RFID reading / writing means is peeled off by the peeling means and attached to the article. At the same time, a part of the desired information written in the RFID inlet is visibly printed on the display label by the printing means, and the display label is attached so as to cover the RFID inlet. It is characterized by attaching. Furthermore, in the RFID sticking method according to the fourth invention, identification marks are printed at equal intervals on the back surface of the long mount, and the first and the first marks are attached to the surface of the mount between the identification marks via an adhesive layer. The RFID-equipped continuous body formed by temporarily attaching the second RFID inlet and the display label is attached to the supply means and fed out by the transport means, and the first RFID inlet of the continuous body fed from the supply means Desired information is written by the first RFID reading / writing means using the first frequency band, and the desired information is written to the second RFID inlet using the second frequency band. A part of desired information written by the second RFID reading / writing means and written to the first and second RFID inlets is printed by the printing means. The display label is visibly printed, and the first and second RFID inlets and the display label are sequentially peeled from the mount of the label continuous body by the peeling means provided on the downstream side of the printing means, The first RFID RFID inlet and the second RFID inlet and the display label that have been peeled off are sequentially sucked and held by the suction / sticking device waiting next to the peeling device, and the article is transported to the vicinity of the suction / sticking device. The first and second RFID inlets are attached so as not to overlap with each other to be attached to the article to be conveyed by the article conveying means provided separately, and the first and second adjacently attached The display label is overlapped and pasted so as to cover the second RFID inlet.

The RFID continuum according to the present invention is formed by sequentially attaching an RFID inlet and a display label sequentially through an adhesive layer between identification marks on a long board, and separately providing an RFID inlet and a display label. Since the RFID label is formed in a stacked state, there is an effect that a printing defect due to unevenness hardly occurs during printing. In addition, the RFID continuous body according to the second invention is such that the first and second RFID inlets and the display label are sequentially and temporarily attached via the adhesive layer between the identification marks of the long mount. Because the RFID label is formed in a state where the provided first and second RFID inlets are affixed adjacent to each other so as not to overlap and the display labels are overlapped so as to cover the first and second RFID inlets. One continuum can deal with two types of RFIDs, and has an effect that printing failure due to unevenness hardly occurs during printing. Furthermore, if one of the first or second RFID inlet is equipped with an antenna for a high frequency band and the other is equipped with an antenna for a low frequency band, communication in different frequency bands of low frequency and high frequency can be realized. It becomes. An RFID sticking apparatus according to a third aspect of the invention is to peel off an RFID inlet in which desired information has been written by an RFID reading / writing means by means of a peeling means, and stick the conveying means to an object to be conveyed. In addition, since some of the desired information written in the RFID inlet is printed visibly in a state where the RFID inlet is not formed on the display label continuous on the mount, printing defects due to unevenness do not occur, Further, since the display label is pasted so as to cover the RFID inlet, and the RFID inlet and the display label are stuck on the article, a so-called “RFID label” is formed. There is an effect that it is possible to realize a “sticking device” with improved printing quality on a table. The RFID sticking method according to the fourth aspect of the present invention sequentially attaches the first RFID inlet, the second RFID inlet, and the display label to the surface between the identification marks on the long mount through the adhesive layer. The desired information is written by the first and second RFID read / write means using the first and second frequency bands different from each other for the first and second RFID inlets. Therefore, there is an effect that it is possible to cope with RFID inlets of different frequency bands. In addition, since the first and second RFID inlets and the display label are continuously attached between the identification marks, it can be continuously attached to the article, and moreover, to the object to be attached. Adhering the first and second RFID inlets adjacent to each other so that they do not overlap, and overlapping the display label so as to cover the first and second RFID inlets, an “RFID label” is formed. Thus, since one display label corresponds to different frequency bands, there is an effect that the reading / writing mode for the article is expanded.

Hereinafter, the present invention will be described with reference to the drawings. FIG. 1 is a schematic plan view showing an embodiment of a continuous body with RFID according to the first invention. As shown in FIG. 1, the continuous body with RFID (hereinafter simply referred to as “continuum” as appropriate). 1) includes a mount 2, an RFID inlet 3, and a display label 4. The mount 2 is formed in a long shape, and identification marks 5 are printed on the back surface at equal intervals in advance. The space between the

identification marks

5 and 5 is referred to as a pitch P. Note that a release agent (not shown) is applied to the surface of the mount 2. The RFID inlet 3 includes an antenna 6 and an IC chip 7, and can transmit and receive with “RFID reading / writing means” to be described later. Desired information to be described later is transmitted to the IC chip 7 through the antenna 6. It can be written and memorized. The RFID inlet 3 has an adhesive layer (not shown) formed on the mount 2 via the release agent (not shown) so that it can be easily peeled off from the mount 2 by the release agent (not shown). In addition to being temporarily attached, it is not easily peeled off by an adhesive layer (not shown) when attached to an “article” to be described later. In the present embodiment, the RFID inlet 3 is formed with an antenna 6 for a low frequency band. Further, on the surface of the display label 4, a part of desired information stored in the RFID inlet 3 can be printed by “printing means” described later, and the mount 2 side has the above-mentioned information. A pressure-sensitive adhesive layer (not shown) is formed via a release agent (not shown). The adhesive layer is temporarily attached by the release agent (not shown) so as to be easily peeled off from the mount 2 and is attached to an “article” to be described later. When pasted, the adhesive layer (not shown) is not easily peeled off. The RFID inlet 3 and the display label 4 are arranged on the surface side of the mount 2 at 1 pitch P between the identification marks 5 and 5 with respect to the paper feed direction (transport direction) F. The RFID-attached continuous body 1 is formed in a state where the RFID inlet 3 and the display label 4 are wound together together and temporarily mounted together. *

Next, the RFID sticking device 11 will be described with reference to FIG. FIG. 2 is a schematic side view showing a state in which the RFID sticking device 11 is installed and the article 51 as the “target article” is separately conveyed on the belt conveyor 50 as the article conveying means. Reference numeral 52 denotes an article detection sensor that detects that the article 51 has been conveyed on the belt conveyor 50. As shown in the figure, the RFID sticking apparatus 11 mainly includes a supply means 12, a printing means 13, a conveying means 14, first and second detection means 15, 16 and an RFID reading / writing means 17. And a peeling means 18, a backing paper winding means 19, a ribbon part 20, an adsorption / sticking means 21, and a control part 22 for controlling these parts. *

The wound continuous body 1 is rotatably mounted on a supply shaft 12 as supply means. *

The printing unit 13 as a printing unit includes a thermal head 23 and a platen 24, prints desired information on the surface of the display label 4 of the continuous body 1 via the thermal head 23, and the platen 24 is a belt 25. To a stepping motor (hereinafter simply referred to as “motor” as appropriate) 26. Then, when the continuous body 1 mounted on the supply shaft 12 is pulled out and sandwiched between the thermal head 23 and the platen 24 via the auxiliary roller 28 and the motor 26 is rotated, the continuous body 1 is moved to the platen via the belt 25. Conveying means 14 for conveying the continuous body 1 is mainly constituted by the motor 26, the thermal head 23, the platen 24 and the belt 25. *

The first and second detection means 15 and 16 are sensors for detecting the print start positions of the RFID inlet 3 and the display label 4 of the continuous body 1 fed out from the supply shaft 12, and are the first detection The means 15 is a reflection sensor, and the second detection means 16 is a transmission sensor. Both the first and second detection means 15 and 16 are transport paths 27 between the supply shaft 12 and the printing unit 13. Are provided in parallel in a direction orthogonal to the paper feed direction F of the continuous body 1. The reflection sensor 15 as the first detection means includes a light emitting unit 15a that emits predetermined light and a light receiving unit 15b that receives the light, and the light emitting unit 15a and the light receiving unit 15b are the continuous body. The identification mark 5 is detected by being arranged on the back surface side of 1 and the pitch P at which a pair (one set) of the RFID inlet 3 and the display label 4 is temporarily attached is detected. On the other hand, the transmission sensor 16 as the second detection means includes a light emitting portion 16a that emits predetermined light and a light receiving portion 16b that receives the light, and the light emitting portion 16a and the light receiving portion 16b are formed of the continuum 1. The position of the front end of the RFID inlet 3 and the display label 4 is detected by detecting the overlapped portion of the mount 2 and the RFID inlet 3 and the display label 4 or the portion of the mount 2 only. Is supposed to be detected. *

An RFID reading / writing device 17 as an RFID reading / writing means is provided immediately before the printing unit 13 in the conveyance path 27 and is a device for writing desired information to the RFID inlet 3 of the continuous body 1. is there. *

A peeling plate 18 as a peeling means is provided on the downstream side close to the printing unit 13 and serves to peel off the RFID inlet 3 and the display label 4 from the mount 2 of the continuous body 1 conveyed through the printing unit 13. When the direction change that only the mount 2 is turned by the release plate 18 is performed, the RFID inlet 3 and the display label 4 are peeled off from the mount 2 by their own rigidity. The peeled RFID inlet 3 and the display label 4 are configured such that the rear end portions are stopped on the peeling plate 18. The mount 2 turned by the peeling plate 18 is wound around a mount winding shaft 19 as “mounting winding means” via

auxiliary rollers

36 and 37. *

The ribbon unit 20 includes a ribbon supply shaft 30 for mounting the ink ribbon R and a ribbon take-up shaft 31, and the ink ribbon R mounted on the ribbon supply shaft 30 passes through an auxiliary roller 32 and is a thermal head of the printing unit 13. 23 and the platen 24, and is melted by the heat of the thermal head 23 while being wound around the ribbon winding shaft 31 via the auxiliary roller 33, and the thermal head is applied to the surface of the display label 4 of the continuum 1. The desired information can be printed via the printer 23. *

The suction sticking means 21 is mainly composed of an arm 34 that can move forward and backward and move in a three-dimensional direction (horizontal and vertical directions), and a suction disk 35 supported by the tip of the arm 34. An article that stands by in the vicinity of the peeling plate 18, and that sucks and holds the RFID inlet 3 and the display label 4 peeled off by the peeling plate 18 sequentially on the suction plate 35 and is being conveyed on the adjacent belt conveyor 50. The RFID inlet 3 and the display label 4 are overlapped and pasted on the article 51. *

Next, based on FIG. 3 and FIG. 4, the operation state of the RFID sticking apparatus 11 is demonstrated. FIG. 3 is a schematic plan view seen from the direction of arrow III in FIG. In FIG. 3, the ribbon portion 20 and the like are omitted for convenience of explanation. The display label 4 is a plain label (see 4-2), and desired information is printed by the thermal head 23 (illustrated by imaginary lines in FIG. 3). *

FIG. 4 is a flowchart for explaining the operation state. As shown in the figure, it is determined in step S01 whether the article 51 has arrived. That is, the article detection sensor 52 detects whether or not the article 51 as the “attachment” has been conveyed on the belt conveyor 50, and when the arrival of the article 51 is detected, the process proceeds to the next step (S02). In step S02, the continuous body 1 is conveyed. That is, the motor 26 is rotated to feed the continuous body 1 from the supply shaft 12 toward the printing unit 13 in order to perform writing in the FRID inlet 3 and printing on the display label 4. In step S03, the identification mark 5 is detected. That is, as shown in FIG. 3, it is determined whether or not the identification mark 5 has been detected by the reflection sensor 15 (illustrated by an imaginary line) as the first detection means provided in the transport path 27. The process returns to step S02 until 5 is detected and the conveyance of the continuous body 1 is repeated. If the identification mark 5 is detected, the process goes to step S04. In step S04, the motor 26 is further rotated by a predetermined number of steps to convey the continuous body 1. In step S05, it is determined whether or not the RFID inlet 3 is detected. That is, the light is emitted from the light emitting unit 16a of the transmission sensor 16 (illustrated by an imaginary line in FIG. 3) as the second detecting means, and the light amount received by the light receiving unit 16b is only the mount 23 and the mount 2 The difference between the overlapped portion of the RFID inlet 3 and the RFID inlet 3 is utilized, and the flow returns to step S04 until the change in the light amount is detected, and the continuous body 1 is continuously conveyed. On the other hand, when it is determined in step S05 that the RFID inlet 3 has been detected, the process proceeds to step S06. In step S06, desired information is written into the RFID inlet 3. Here, mainly with reference to FIG. 3, the RFID inlet 3 of the continuous body 1 fed out in the transport direction F is positioned by an RFID read / write device 17 (shown by an imaginary line in FIG. 3) to be a desired one. Information, for example, when used for logistics, information such as date of shipment, sender, destination, etc. is written. Returning to FIG. 4, in step S <b> 07, whether or not the display label 4 is detected is determined based on the light amount of the transmission sensor 16, and the continuous body 1 is continuously conveyed until the display label 4 is detected. When it is determined that the display label 4 is detected, the process goes to step S08, and a part of the information written to the RFID inlet 3 in the display label 4-1 (see FIG. 3) in step S08. (In the example shown in the figure, “Ebisu, Shibuya-ku, Tokyo ○ Chome △ address Taro Sato”) is printed. Next, in step S09, it is determined whether writing to the RFID inlet 3 and printing on the display label 4 have been completed. That is, writing to the RFID inlet 3 and printing on the display label 4 are normally completed, and it is determined whether or not the next identification mark 5 is detected by the reflection sensor 15, and writing and printing are normally completed. When it is determined that, go to step S10. On the other hand, if it is determined in step S09 that either or both of writing to the RFID inlet 3 and printing on the display label 4 have not been completed normally, an error display is displayed in step S14. To do. In step S10, the RFID inlet 3 is attached to the article 51. That is, here, the attachment of the RFID inlet 3 will be described with reference to FIG. 3. The RFID inlet 3-1, which is peeled off by the peeling plate 18 and in which desired information is written, is adsorbed waiting in the vicinity. The suction means 35 (shown by imaginary lines in FIG. 3) of the sticking means 21 is sucked and held and attached to the article 51. Next, in step S11, as with the RFID inlet 3-1, the display label 4-1 is peeled off by the peeling plate 18 and the desired information is written and the RFID inlet pasted on the article 51. Affixed to cover 3-1. In step S12, it is determined whether the RFID inlet 3 and the display label 4 have been attached. If it is determined that the RFID inlet 3 and the display label 4 have been attached normally, the process proceeds to step S13 and the process is terminated. On the other hand, when it is determined in step S12 that the RFID inlet 3 and the display label 4 are stuck, an error is displayed in step S14. The error display in step S14 is performed by a known means such as sounding a buzzer (not shown), displaying an error message on a display unit (not shown), or lighting / flashing a lamp (not shown). Independently or in combination with the operator.

As described above, the RFID continuous body in which the RFID inlet 3 and the display label 4 are sequentially temporarily attached to the surface of the 1 pitch P between the identification marks 5 and 5 of the long mount 2 via the adhesive layer. 1, the RFID inlet 3 in which desired information is written by the RFID reader / writer 17 is peeled off by the peeling plate 18 and attached to the article 51 conveyed on the belt conveyor 50, and the RFID inlet 3 is attached to the RFID inlet 3. A part of the written desired information is visibly printed on the continuous display label 4 on the mount 3, and further, the display label 4 is pasted so as to cover the RFID inlet 3. In a state where the RFID inlet 3 and the display label 4 are overlapped and pasted on the object 51, a so-called “RFID label” is formed. Sticking device "because it requires only one, the expansion of the installation location is not required. *

Moreover, the RFID inlet 3 and the display label 4 are separately provided continuously between 1 pitch P. When printing on the display label 4, the “RFID inlet” is different from the conventional “RFID label”. As a result, printing defects due to unevenness are avoided. *

Next, based on FIG. 5, the continuous body with FRID and the RFID sticking method using this continuous body with RFID will be described. In the following description, the same parts as those of the previous embodiment are designated by the same reference numerals, and detailed description thereof is omitted. 3 is a schematic plan view corresponding to FIG. 3 of an RFID sticking apparatus using a continuous body 41 with RFID, and a continuous body 41 with RFID (hereinafter, simply referred to as “continuum”) 41 is mounted on the mount 2. The first RFID inlet 42, the second RFID inlet 43, and the display label 4 are temporarily attached to the pitch P between the identification marks 5 and 5 so as to be peelable through an adhesive layer (not shown). Is formed. The first RFID inlet 42 includes a high-frequency band antenna 44 and an IC chip 7, and a high-frequency band between the first RFID inlet 42 and a high-frequency RFID reading / writing device (first RFID reading / writing unit) 45 described later. Transmission and reception are possible, and desired information can be written and stored in the IC chip 7 via the antenna 44. The first RFID inlet 42 is temporarily attached to the right half in the width direction of the mount 2 in FIG. The second RFID inlet 43 is temporarily attached to the left half in the width direction of the mount 2 following the first RFID inlet 42, and includes the antenna 6 for the low frequency band. The desired information can be written / stored in the IC chip 7 via the antenna 6 by the writing device (second RFID reading / writing means) 17. The display label 4 can print a part of the information stored in the first and second RFID inlets 42 and 43, and is temporarily placed on the mount 2 following the second RFID inlet 43. It is worn. In addition, the RFID sticking device 46 of FIG. 5 is further provided with a first RFID reading / writing device 45 for a high frequency band in addition to the RFID sticking device 11 of the previous embodiment. That is, an RFID reading / writing device 45 is provided as appropriate in the conveying direction F of the RFID reading / writing device 17 for low frequency band provided in the conveying path 27, and the reading / writing to the first RFID inlet 42 is performed. You can write. *

Next, the procedure for sticking the first and second RFID inlets 42 and 43 and the display label 4 to the article 51 conveyed on the conveyor 50 by the RFID sticking device 46 will be described. 2), the continuous body 41 is mounted, pulled out toward the printing unit 13, and is sandwiched between the thermal head 23 and the platen 24. When the article detection sensor 52 detects that the article 51 has been conveyed on the conveyor 50, the identification mark 5 is detected by the reflection sensor 15 while conveying the continuous body 41 in the conveyance direction F. The first RFID inlet 42 is detected by the transmission sensor 16 while the continuum 41 is conveyed by the motor 26 with the desired number of steps from the time when the first RFID is read and positioned to the first RFID reader / writer 45, and the antenna 44 is detected. The desired information is written into the IC chip 7 via When the writing to the first RFID inlet 42 is completed, the second RFID inlet 43 is detected by the transmission sensor 16 while the continuum 41 is being conveyed by the desired number of steps motor 26, and the second RFID reading / reading is performed. While positioning to the writing device 17, desired information is written to the IC chip 7 via the antenna 6. Further, the display sensor 4 is detected by the transmission sensor 16 while the continuum 41 is conveyed by the desired number of steps motor 26 and is positioned on the thermal head 23 of the printing unit 13, and the first and second are conveyed while being conveyed. A part of the desired information written in the RFID inlets 42 and 43 is printed on the display label 4 so as to be visible. The first RFID inlet 42-1 for the high frequency band that has reached the peeling plate 18 is peeled off from the mount 2 and is sucked and held by the suction disk 35 that stands by, and also on the conveyed article 51 (see FIG. 2). It is pasted. Next, the second RFID inlet 43-1 for the low frequency band is peeled off by the peeling plate 18 and sucked and held by the suction plate 35, and adjacent to the RFID inlet 42-1 attached to the article 51. Paste so that it does not overlap. Further, the display label 4-1 is peeled off by the peeling plate 18 and sucked and held by the suction disk 35, and is overlapped so as to cover the first and second RFID inlets 42 and 43 attached to the article 51. And paste. As described above, the first RFID inlet 42 for the high frequency band and the second RFID for the low frequency band are provided on the surface of the one pitch P between the identification marks 5 and 5 of the long mount 2 via the adhesive layer. Since the RFID inlet 43 and the continuous body 41 with RFID formed by sequentially attaching the display label 4 sequentially, desired information is written by the RFID reading /

writing devices

45 and 17 for the high frequency band and the low frequency band. One RFID sticking device can cope with RFID inlets 42 and 43 having different high frequency bands and low frequency bands. In addition, since the first and second RFID inlets 42 and 43 and the display label 4 are continuously attached between the identification marks 5 and 5 of 1 pitch P, continuous pasting to the article 51 is possible. In addition, since the “RFID label” is formed by overlapping the display label 4 and the display label 4 corresponds to different frequency bands with one display label, the read / write distance to the article 51 is It can be enlarged and read / written from a distance on the belt conveyor 50, and at the time of delivery, it can be read / written at hand by a portable reader. Other configurations, operations, and effects are almost the same as in the previous embodiment, and detailed explanations are omitted. *

It should be noted that the configuration and operation of the above-described embodiment are examples, and it goes without saying that they can be changed as appropriate without departing from the spirit of the present invention.

It is a schematic plan view which shows the continuous body with RFID which concerns on 1st invention of this invention. It is a schematic side view which shows the state in which the RFID sticking apparatus which concerns on another invention is installed in the vicinity of the article conveyance means. FIG. 3 is a schematic plan view seen from the direction of arrow III in FIG. It is a flowchart explaining the operation state of an RFID sticking apparatus. It is a schematic plan view equivalent to FIG. 3 of the continuous body with FRID and the RFID sticking apparatus according to another invention.

Explanation of symbols

F transport direction R ink ribbon 1 continuum (continuum with RFID) 2 mount 3 (second) RFID inlet 4 display label 5 identification mark 6 antenna 7 IC chip 11 RFID sticking machine 12 supply means (supply shaft) 13 printing Means (printing part) 14 Conveying means 15 First detecting means (reflection sensor) 16 Second detecting means (transmission sensor) 17 RFID reading / writing means 18 Peeling means (peeling plate) 19 Mount paper winding shaft 20 Ribbon part 21 Adsorption / bonding means 22 Control unit 23 Thermal head 24 Platen 25 Belt 26 Stepping motor (motor) 27 Transport path 28, 29 Auxiliary roller 30 Ribbon supply shaft 31 Ribbon take-up

shaft

32, 33 Auxiliary roller 34 Arm 35 Adsorption plate 41 With RFID Continuum 2 first inlet 43 second inlet 44 antenna 45 RFID read-write unit 46 RFID attachment device 50 the article transport means (conveyor belt) 51 to be attached material (article) 52 article detection sensor

Claims

A long mount with identification marks printed on the back surface at equal intervals, an RFID inlet temporarily attached to the surface of the mount between the identification marks via an adhesive layer, and the surface of the mount following the RFID inlet And a label for display temporarily attached via an adhesive layer.
A long board having identification marks printed on the back surface at equal intervals; a first RFID inlet temporarily attached to the surface of the board between the identification marks via an adhesive layer; and the first RFID inlet A second RFID inlet temporarily attached to the surface of the mount via an adhesive layer, and a display label temporarily attached to the surface of the mount via an adhesive layer following the second RFID inlet. And a continuous body with an RFID.
3. The RFID-equipped continuous body according to claim 2, wherein the first or second RFID inlet includes an antenna for a high frequency band on one side and an antenna for a low frequency band on the other side.
Continuous with RFID, in which identification marks are printed at equal intervals on the back of a long mount, and an RFID inlet and a display label are temporarily attached to the surface of the mount between the identification marks via an adhesive layer Body, supply means for mounting the continuous body with RFID, RFID reading / writing means for reading / writing the RFID inlet of the continuous body fed from the supply means, and printing on the display label Printing means to be applied; conveyance means for conveying the continuous body from the supply means to the printing means side; provided on the downstream side of the printing means; and peeling the RFID inlet and the display label from the mount of the continuous body A peeling means and a stand-by adjacent to the peeling means, and the peeled RFID inlet and display label A label affixing device having a suction and affixing means for pulling and holding and affixing to an object to be adhered, and further comprising an article transporting means for transporting an article in the vicinity of the aspiration and affixing means, The RFID inlet in which desired information is written by the RFID reading / writing means is peeled off and attached to the article by the peeling means with respect to the article transported by the article transporting means, and written into the RFID inlet. A part of the desired information is visibly printed on the display label by the printing means, and the display label is pasted so as to cover the RFID inlet. Pasting device.
Identification marks are printed at equal intervals on the back of the long mount, and the first and second RFID inlets and a display label are temporarily attached to the surface of the mount between the identification marks via an adhesive layer. The RFID-equipped continuum is mounted on the supply means and fed out by the conveyance means, and desired information is sent to the first RFID inlet of the continuum fed from the supply means by the first frequency band. Using the first RFID read / write means, and further writing desired information to the second RFID inlet using the second RFID band using the second RFID read / write means, and A part of the desired information written in the first and second RFID inlets is printed on the display label by a printing means so as to be visible; The first and second RFID inlets and the display label are sequentially peeled off from the mount of the label continuum by a peeling means provided on the downstream side of the means, and the adsorbing and pasting means waiting next to the peeling means Then, the peeled first and second RFID inlets and the display label are sequentially sucked and held, and are transported by an article transport means provided separately to transport the articles in the vicinity of the suction / sticking means. The first and second RFID inlets are pasted on the object to be pasted so as not to overlap with each other, and the first and second RFID inlets pasted on each other are covered with the display. An RFID attaching method, wherein a label is overlaid and attached.